Two-thirds of health IT executives in the U.S. believe the use of mobile technology will substantially or dramatically impact the delivery of healthcare in the future. But how will the form and function of this technology be defined? How can the designers of technology ensure the best fit with the needs of the healthcare professionals who will make use of it?
When it comes to component fabrication for production ready parts, designers typically have a good idea which process they’d like to specify. However, when it comes to prototyping, they may not be as clear on the best process for their needs. This article looks at three common fabrication processes—3D printing, machining, and molding—and clarifies which to use when for prototype parts.
In the field of medical technology, wireless devices are seeing some of the most broad-reaching growth. This is due mostly in part to the wide range of applications that wireless medicine encompasses. Mobi Health News reports that the top ten areas wireless medicine has directly benefited include: Alzheimer’s, asthma, breast cancer, COPD, depression, diabetes, heart failure, hypertension, obesity, and sleep disorders.
CAS DataLoggers Engineer Terry Nagy has worked on a uniquely challenging data acquisition application which highlights the effectiveness of Delphin data loggers. A medical equipment manufacturer had a customer in a hospital who was experiencing problems with a particular CT scan machine that would reset in the middle of the procedure, which cost significant time as patients often had to be scanned again.
Small but meticulous—allshape AG in Lengnau, Switzerland, near Biel specializes in high-precision products for all common shapes of dental implants. Thanks to the reliable Sinumerik 840D CNC, allshape AG gives dental laboratories customized and fast delivery service.
Imec and Panasonic are jointly developing a fully integrated sample-to-answer device to perform molecular diagnostic tests. Recently, they’ve created prototype of the device. The chip is about half the size of a credit card that performs fast, simple and sensitive detection of genetic markers, specifically single nucleotide polymorphisms (SNPs).
Life sciences is one industry that is currently undergoing a turbulent development environment. Major advancements such as next-generation DNA sequencing and molecular imaging are expected to drive growth in categories such as immunochemistry and genetic testing. Add to this that changes in government regulations and market conditions are forcing life science OEMs to build their products using faster, smaller more modular technologies.
Though medical devices are always moving towards less invasive, more effective technology, they face a constant, persistent and ever-evolving enemy in deadly bacteria and infections. Healthcare-associated infections (HAIs) can be caused by any infectious agent and result in 99,000 deaths per year, according to the Centers for Disease Control and Prevention.
While all electronic products must comply with electromagnetic compatibility (EMC) requirements, EMC evaluation of medical devices is expanded to include product safety. This step-up is understandable as human health and life are frequently dependent on medical devices in a healthcare setting.
Many engineers and purchasing agents think it is more expensive to custom design a component or assembly these days when often customization can save on total costs. How can this be when an off-the-shelf unit typically is less expensive than its custom-produced counterpart?
A pharmaceutical company that developed a new powder asthma medication needed a delivery device. They identified a product development firm that handled all aspects of the development of an inhaler device with an intuitive design.
Discussion and collaboration between a medical device designer and a molding partner early in the design process can save significant expense and help avoid manufacturing obstacles that would otherwise not emerge until production has begun. This article looks at the great benefits realized from early cooperation between these two parts of the product development lifecycle.
ConMed Corp., a leading global supplier of arthroscopic devices, multi-specialty endoscopic medical video systems, and powered surgical instruments, faced several stiff challenges when it embarked on the development of the industry’s first UL-approved autoclavable battery.
Self-monitoring of blood glucose levels is vital to effective diabetes control, and so every day, diabetics around the world share the same routine: They place a drop of their blood on a test strip and insert the strip into a meter to measure their glucose level. But few of them probably stop to think that the humble little plastic test strip that makes self-monitoring possible is actually a highly engineered sensor.
A lean initiatives program, undertaken over a period of years to improve quality and on-time delivery, has been a boon to the company’s ability to meet medical device makers’ needs. About three years ago, the company refocused its ongoing lean manufacturing initiatives to take aim at improving the company’s bottom line by eliminating waste while improving quality and delivery.